USAF Defines Requirements for MQ-9A Replacement – UAS VISION
Heavy Reaper losses over Iran accelerate a long-deferred successor program—but the new platform will look nothing like the drone it replaces, trading exquisite sensor suites for modular open architecture, attritable cost, and mass-production speed.
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The U.S. Air Force formally approved a requirements document for an MQ-9A Reaper replacement on May 11, clearing the way for a competitive acquisition. The new platform will prioritize open architecture, low unit cost, rapid mass production, and an attritable operating concept. The entire cost-reduction strategy is payload-driven: Maj. Gen. Niemi told Congress the MQ-9A with a full sensor suite runs "up to $50 million a copy," and the successor is specifically designed to allow quick-disconnect removal of expensive sensor packages before high-threat missions. Specific payload SWaP budgets, hardpoint counts, and weapons integration requirements have not yet been publicly disclosed. The program was driven by the combat loss of 24 MQ-9As during Operation Epic Fury against Iran, and attracted over 50 industry respondents to an April market survey.
WASHINGTON—The U.S. Air Force has formally cleared a requirements document for an MQ-9A Reaper successor, Air Force Futures acting head Maj. Gen. Christopher Niemi disclosed to the Senate Armed Services Committee on May 12, one day after signing the document. The approval formally opens an acquisition pathway for a medium-altitude, long-endurance (MALE) unmanned aircraft system (UAS) that will inherit the Reaper's intelligence, surveillance, and reconnaissance (ISR) and precision-strike roles—but on radically different design and cost terms than any program the Air Force has previously attempted.
The announcement caps a multi-year oscillation between competing visions for the MQ-9's successor. Where earlier studies under the "MQ-Next" banner and the 2021 "Next-Generation Multi-Role UAS Family of Systems" concept hedged between survivable low-observable designs and attritable mass, the new requirements document comes down unambiguously on the side of affordability and scale. The catalyst is the combat record—and devastating attrition rate—of the MQ-9A fleet during Operation Epic Fury, the U.S.-led air campaign against Iran that began Feb. 28.
Requirements: Affordable Mass Over Exquisite Survivability
The requirements document translates into a set of performance parameters published in an April 15 market survey notice that drew unusually wide industry participation. The Air Force is seeking a platform with a range of up to 1,500 km (932 statute miles) and a 20-hour endurance. The operative definition of "attritable" in the survey is precise: an aircraft capable of completing 100 missions at a "low-to-medium acquisition cost," deliberately calibrated to allow commanders to accept losses that would be unconscionable with an MQ-9A airframe valued, in fully configured flyaway terms, at more than $30 million per unit.
"We believe what is possible is to take advantage of modern manufacturing technology so that we could buy something that is more flexible, lends itself more to open architecture, is more easy to produce in mass numbers, and then ultimately you could use in a more attritable way." — Maj. Gen. Christopher Niemi, Acting Head, Air Force Futures, Senate SASC hearing, May 12, 2026
| Parameter | Requirement | MQ-9A Comparison |
|---|---|---|
| Range | Up to 1,500 km (932 mi.) | ~1,852 km (1,150 mi.) combat radius |
| Endurance | 20 hours | 27 hrs unarmed; ~14 hrs armed |
| Mission life | 100 missions minimum | Extended via SLEP; no hard public limit |
| Unit cost target | Low-to-medium acquisition cost | $30M+ airframe; up to $50M fully sensored |
| Architecture | Open, modular (MOSA/SOSA aligned) | Proprietary (GA-ASI) |
| Production concept | Mass-producible via modern manufacturing | Low-rate; production line closed 2025 |
| Operating concept | Attritable / affordable mass | Reusable exquisite asset |
Note: Published parameters are from the April 15 market survey. The full requirements document has not been publicly released. Payload SWaP budgets, hardpoint counts, and weapons integration specifications remain undisclosed.
The $50 Million Problem: Payload as the Core Cost Driver
The most operationally consequential element of the new requirements concept is not range or endurance—it is the treatment of the sensor suite as a variable, mission-configurable cost rather than a fixed sunk cost. Niemi put the issue in stark financial terms during his Senate testimony: "The MQ-9, depending on what sensors are on that, can cost up to $50 million a copy." The entire modular architecture requirement flows from that number.
"By getting something that's more modular, we think we could take advantage of an opportunity—if you knew that aircraft was going to operate in a high-threat environment—of taking off those packages, that [would] drive that cost to a much lower price point." — Maj. Gen. Christopher Niemi, Breaking Defense, May 12, 2026
The MQ-9A's sensor suite explains the cost gap. The aircraft carries the Raytheon AN/AAS-52(V) Multi-Spectral Targeting System B (MTS-B), a 20-inch stabilized gimbal integrating a wide-area infrared sensor, color and monochrome electro-optical cameras, short-wave infrared (SWIR) imagery, a laser designator, and a laser rangefinder capable of supporting AGM-114 Hellfire and GBU-12/GBU-38 laser and GPS-guided weapon employment. Complementing the MTS-B is the General Atomics AN/APY-8 Lynx II synthetic aperture radar (SAR) with both SAR strip-map/spotlight and Ground Moving Target Indication (GMTI) modes—a system with direct lineage to the Lynx SAR developed for the Predator and refined over two decades of combat employment. Rounding out the baseline suite are Electronic Support Measures (ESM) for signals intelligence, and on some configurations, a multi-mode maritime surveillance radar.
The MQ-9A's seven external hardpoints can carry a combined external payload of approximately 3,000 lb (1,360 kg): inboard stations rated at ~1,500 lb each, mid-wing stations at 500–600 lb, and outboard stations at 150–200 lb. That weapons load out encompasses AGM-114 Hellfire II (up to 8 missiles in a typical weapons configuration, up to 14 if sensors are reduced), GBU-12 Paveway II 500-lb laser-guided bombs, GBU-38/B JDAM 500-lb GPS-guided bombs, GBU-49 Enhanced Paveway II (dual GPS/laser guidance), GBU-54 Laser JDAM, and the AIM-9X Sidewinder in the air-to-air role—a capability validated in 2020 that proved tactically relevant during Epic Fury.
The datalink architecture is equally mature but equally proprietary: C-band line-of-sight links handle launch and recovery, while Ku-band satellite communications (SATCOM) support over-the-horizon mission control. Both links are tailored to the GA-ASI ground control station architecture, creating the integration lock-in that the open architecture mandate is explicitly designed to break.
| Payload Category | MQ-9A (Current) | Successor Requirement |
|---|---|---|
| EO/IR Sensor | Raytheon AN/AAS-52(V) MTS-B; 20" gimbal; FLIR, EO, SWIR, laser designator/rangefinder | TBD Modular quick-disconnect; MOSA/SOSA-aligned; removable pre-mission |
| Radar (SAR/GMTI) | GA-ASI AN/APY-8 Lynx II; SAR spotlight/strip-map; GMTI; all-weather targeting | TBD Payload-agnostic open interface implied; specific radar spec not released |
| Signals Intelligence / ESM | Electronic Support Measures (ESM); optional SIGINT pods | Not Released No public specification |
| Maritime Surveillance | Multi-mode maritime surveillance radar (selected configs) | Not Released No public specification |
| Weapons Hardpoints | 7 external hardpoints; ~3,000 lb total external payload | Not Released No hardpoint count or payload weight specification disclosed |
| Weapons (Air-to-Ground) | AGM-114 Hellfire II (up to 14); GBU-12 Paveway II; GBU-38 JDAM; GBU-49 Enh. Paveway II; GBU-54 Laser JDAM; small-diameter bombs | TBD Strike mission retained; specific weapons integration not specified |
| Air-to-Air Weapons | AIM-9X Sidewinder Block 2 (validated 2020; used in Epic Fury) | Not Released |
| Datalinks | C-band LOS (launch/recovery); Ku-band SATCOM (OTH mission control); proprietary GCS | Principle Known Open architecture GCS/datalink standards mandated; specific bands TBD |
| SWaP Budget | 950 shp turboprop; ~450 lbs internal payload capacity; 3,000 lb external | Not Released No SWaP-C figures published |
| Air-Launched Effects (ALE) | Validated via A2E program: Altius-600 ALE from tube-launch pod; Group 2/3 sUAS dispensing | TBD SOCOM A2E compatibility expected; SOCOM demanding early involvement |
| Electronic Warfare | Limited (pod-based); not a primary MQ-9A mission | TBD MQ-Next FoS included EW as a mission set; successor requirements not specified |
Key: Principle Known = publicly stated direction. TBD = mission retained but specific requirements not disclosed. Not Released = no public specification as of May 21, 2026.
The "open architecture" mandate maps to a specific family of DoD standards that contractors will be expected to meet. The Modular Open Systems Approach (MOSA) is the overarching DoD policy; beneath it, the Sensor Open Systems Architecture (SOSA™) Technical Standard governs sensor and EW payload interoperability using OpenVPX card profiles. The Future Airborne Capability Environment (FACE) standard governs avionics software portability. Hardware Open Systems Technologies (HOST) and the C5ISR/EW Modular Open Suite of Standards (CMOSS) govern processing hardware. Work already done on the MQ-9A itself—including the GTRI/Air Force MTS-iEU modernization program that delivered SOSA-aligned 100 Gb/s backplane processing into the MTS-B sensor chassis—provides a roadmap for what compliant sensor integration looks like. The challenge, as a May 2026 Military Embedded Systems analysis notes, is that MOSA's promise of rapid swap-and-upgrade still runs into DO-178C software and DO-254 hardware airworthiness certification timelines that can stretch for years—a friction the Air Force must address in how it structures the successor program's sustainment architecture.
SOCOM's Stake: The ALE Mothership Requirement
A dimension of the payload requirement largely absent from initial reporting is U.S. Special Operations Command's early and explicit effort to shape the MQ-9A successor. Aviation Week reported May 20 that SOCOM program executive officer for fixed-wing programs Col. Justin Bronder told reporters at SOF Week that because his command "can't afford to buy its own large UAV, by definition, we are very much baked into what the Air Force wants to do." SOCOM intends to ensure its operational requirements—particularly the Adaptive Airborne Enterprise (A2E) capability it has been developing on the existing MQ-9 fleet—transfer to whatever successor platform emerges.
The A2E program transforms the MQ-9 from a standalone hunter-killer into a networked airborne command node: a large, long-endurance platform that controls, deploys, and recovers a swarm of smaller, expendable Group 2 and Group 3 air-launched effects (ALE). SOCOM's FY27 budget request includes $75.8 million for MQ-9 under this framework—more than triple the FY26 allocation. Of that increase, nearly $48 million goes to A2E components: 93 Group 2 ISR ALE drones (limited to 55 lb, 3,500 ft, below 250 kts), 10 Group 3 signature-managed drones (up to 1,320 lb, 18,000 ft), 16 swarm carrier pods, and five human-machine interface ground systems. GA-ASI demonstrated A2E with AFSOC in December 2023, launching an Altius-600 from a tube-launch pod mounted on an MQ-9A.
For the successor program, this translates into a payload carriage requirement that goes beyond traditional hardpoint-mounted munitions: the new platform will likely need to accommodate swarm carrier pods of sufficient volume and interface standard to deploy ALE systems in contested environments—a capability that demands internal or wing-pylon volume well above what a purely sensor-and-strike configuration would require. Whether the Air Force's open requirements document has captured this as a threshold or objective capability has not been confirmed publicly.
Operation Epic Fury: Catalyst and Combat Proof Point
The urgency behind the requirements document is inseparable from Operation Epic Fury. The U.S.-Israel coordinated air campaign, launched Feb. 28, targeted Iranian missile production, naval assets, air defense systems, and military infrastructure across multiple theaters. Over the course of roughly six weeks, the Pentagon conducted more than 13,000 sorties and struck more than 13,000 targets. The MQ-9A Reaper was, by Air Force leadership's own account, the campaign's most important single platform—and its most costly casualty.
"Perhaps maybe the most valuable player was unmanned. No other platform is even close to the MQ-9." — Gen. Kenneth S. Wilsbach, Chief of Staff, U.S. Air Force, House Armed Services Committee, May 20, 2026
The Reapers flew around a dozen continuous orbits over Iranian territory at the campaign's peak, performing dynamic targeting of mobile missile and drone launchers, cueing crewed strike packages, and conducting battle damage assessment. The persistent ISR and time-sensitive strike roles that the MQ-9 had perfected over two decades of counterterrorism operations translated effectively into the conventional campaign—but the permissive airspace of Afghanistan and the Sahel was replaced by the dense layered air defenses of the Islamic Revolutionary Guard Corps.
A Congressional Research Service report updated May 13 confirmed 24 MQ-9 Reaper drones were destroyed during the campaign, part of a total of 42 U.S. aircraft lost or damaged—including four F-15Es, one F-35A, one A-10, and one MQ-4C Triton. The 24 Reapers represent up to $1.2 billion in destroyed airframes, a figure exceeding the $996.5 million the service seeks for its first Collaborative Combat Aircraft tranche in FY27.
Near-Term Backfill: A Closed Production Line
The Air Force faces a compounding structural problem: it must simultaneously backfill wartime losses and field a longer-term successor, while the production infrastructure that made the MQ-9A is no longer operational. General Atomics shut down the MQ-9A production line in 2025. A company spokesperson confirmed to Air & Space Forces Magazine that fewer than 10 new or company-owned MQ-9As remain available. Lt. Gen. David Tabor, deputy chief of staff for plans and programs, confirmed the service is "looking at options to buy back as many of the MQ-9As as we possibly can right now."
The likeliest near-term backfill candidate is the MQ-9B SkyGuardian. With a 79-foot wingspan versus the MQ-9A's 66 feet, the MQ-9B can carry approximately 28 percent more payload—800 pounds internally plus 4,000 pounds externally—and boasts a range of 6,000 nautical miles. GA-ASI spokesman C. Mark Brinkley stated the company is "offering the U.S. Air Force modular options for MQ-9B, at a price that reflects the [Department of War's] requirements and can be delivered today, not someday."
Secretary of the Air Force Troy Meink confirmed on May 20 that the service has no plans to divest any MQ-9As, despite the absence of post-FY27 funding for the type in current plans. The $1.56 billion requested for FY27 will sustain the 56-combat-line requirement through the fiscal year, while the successor acquisition matures.
Potential Competitors: A Widened Field
The over-50 industry responses to the April market survey signal that the competition will be unlike earlier MALE UAS programs in its breadth. The emphasis on modern manufacturing methods, open architecture, and attritable cost economics has restructured the competitive calculus away from legacy integration primes and toward firms with high-rate production and software-defined system experience.
General Atomics / GA-ASI is positioned as both incumbent defender and near-term bridge. The MQ-9B offers an immediate partial solution, while the MQ-20 Avenger—a jet-powered MALE with modular payload bay—is a longer-term contender. GA-ASI carries deep operator relationships and the only continuous Reaper sensor integration heritage in the business.
Kratos Defense & Security Solutions brings the most directly relevant attritable pedigree. The XQ-58A Valkyrie, developed under the Air Force Research Laboratory's Low Cost Attritable Aircraft Technology (LCAAT) program, demonstrated sub-$3 million unit-cost potential. Kratos has repeatedly shown its ability to deliver airframes at price points and tempos that traditional primes cannot match.
Anduril Industries enters with momentum from the CCA Increment 1 program (YFQ-44A Fury) and the Arsenal of Democracy manufacturing facility in Columbus, Ohio. The company's software-first approach and Shield AI Hivemind autonomy integration align directly with open-architecture requirements.
Northrop Grumman, L3Harris Technologies, and Textron Aviation Defense round out the traditional-prime tier, each with relevant MALE or ISR heritage. Non-traditional entrants from the commercial drone and eVTOL sectors—attracted by the explicit call for "modern manufacturing technology"—have also indicated interest.
Acquisition Strategy: Critical Gaps Remain
What the requirements document does not yet provide is a detailed acquisition strategy. The formal competitive solicitation, evaluation criteria, payload SWaP specifications, hardpoint requirements, down-select process, and prototype timeline remain unpublished. The War Zone noted that "what appears to be missing at this stage, or at least obscured, is an acquisition strategy for the new drones," as well as specifications for the ground control systems, sensors, and data exploitation technologies that must accompany the airframe.
The MOSA implementation challenge is also unresolved. As a May 2026 Military Embedded Systems analysis observed, the promise of rapid hardware and software swaps under SOSA and FACE standards still collides with DO-178C/DO-254 airworthiness certification timelines that can extend for years—a gap that has widened as commercial AI accelerator and GPU cycles now move every 12–18 months while military qualification cycles run a decade. The Air Force's success in delivering an affordable-mass successor will depend substantially on how aggressively it structures the certification and update pathways into the program's architecture from day one.
Mitchell Institute Director Mark Gunzinger offered a cautionary note against reading the new direction as a downgrade: "Reapers will be in the force for a long time. The family of UAVs the Air Force apparently wants to procure will expand—not contract—the mission capabilities of its UAV force. I believe the Air Force intends to grow its overall UAV capacity over time, not reduce it."
— END OF REPORT —
Verified Sources & Formal Citations
- Aviation Week / Aerospace Daily. "USAF Clears Requirements Doc for MQ-9A Replacement." May 12, 2026. aviationweek.com
- Aviation Week / Brian Everstine. "SOCOM Gets Involved Early in MQ-9 Replacement Plan." May 20, 2026. aviationweek.com
- Breaking Defense. "Air Force Greenlights Requirements for MQ-9A Reaper Drone Replacement." May 12, 2026. breakingdefense.com — Source for Niemi's $50M sensor cost quote.
- Air Force Times / Michael Scanlon. "Air Force MQ-9 Fleet Drops to 135 Aircraft After Iran Combat Losses." May 13, 2026. airforcetimes.com
- Air & Space Forces Magazine. "MQ-9s Over Iran: Striking, Finding Targets But Taking Some Losses." March 12, 2026. airandspaceforces.com
- Air & Space Forces Magazine. "To Replace Lost MQ-9s, USAF Eyes Next-Gen Reaper." May 2026. airandspaceforces.com
- Air Force Times. "Air Force Dubs MQ-9 the 'MVP' of Epic Fury." May 21, 2026. airforcetimes.com
- The War Zone / Newdick & Rogoway. "MQ-9 Reaper Replacement Requirements Stress A Drone Cheap Enough To Risk Losing." May 13, 2026. twz.com
- Air & Space Forces Magazine. "SOCOM Cuts Back on OA-1K, Wants 100 Drones to Go with MQ-9." May 2026. airandspaceforces.com
- Army Recognition. "US Special Forces to Modify MQ-9 Reaper to Launch Drone Swarms." April/May 2026. armyrecognition.com — Source for A2E FY27 budget detail.
- Georgia Tech Research Institute. "Sensor Modernization for MQ-9 Reaper Adopts Open Systems Technology." March 2024. gtri.gatech.edu — MTS-iEU SOSA/MOSA modernization.
- Military Embedded Systems. "From Concept to Capability to Compliance: Making MOSA Work in Avionics." May 2026. militaryembedded.com
- The Defense News. "CRS Report Details Loss or Damage of 42 U.S. Aircraft During Operation Epic Fury." May 19, 2026. thedefensenews.com
- General Atomics / GA-ASI. "MQ-9A Reaper Product Page." ga-asi.com/remotely-piloted-aircraft/mq-9a — MQ-9A sensor and payload specification.
- General Atomics / GA-ASI. "GA-ASI Demonstrates A2E Concept with AFSOC." February 5, 2024. ga-asi.com
- DoD Operational Test & Evaluation / DOTE. FY2014 MQ-9 Reaper Annual Report (DOT&E). dote.osd.mil — MTS-B and Lynx SAR performance data.
- DoD Operational Test & Evaluation / DOTE. FY2017 MQ-9 Reaper Annual Report (DOT&E). dote.osd.mil
- GlobalSecurity.org. "MQ-9 Reaper / Predator B — Technical Specifications." globalsecurity.org — Hardpoint loads and payload weight data.
- U.S. Senate Armed Services Committee. Hearing Testimony: Maj. Gen. Christopher Niemi and Lt. Gen. David Tabor, Airland Subcommittee. May 12, 2026. armed-services.senate.gov
- U.S. House Armed Services Committee. Hearing Testimony: SecAF Troy Meink and CSAF Gen. Wilsbach. May 20, 2026. armedservices.house.gov
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